在Aspen Plus模拟器中模拟甘油和1-丁基-3-甲基咪唑四氟硼酸盐生产无水生物乙醇

José I. S. da Silva, Liliana Félix, Mariana Vieira, Victória Caroline Veloso Meireles, Edilailsa Januário de Melo, Rogério Alexandre Alves de Melo
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引用次数: 1

摘要

摘要:生物燃料作为一种从有机生物质中提取的能源,代表了一种经济和环境的替代方案,目前在全球范围内都存在。它们是一种可再生能源,污染物排放量低,因此向大气中释放的二氧化碳较少。生物乙醇的获得源于发酵过程,在发酵过程中产生多组分混合物并分离无水生物乙醇。为了得到这样的化合物,需要一些操作,如萃取精馏,其中加入溶剂以“破坏”乙醇-水共沸物。本研究采用了两种溶剂:甘油和离子液体[BMIM][BF4]。从由乙醇、水、乙酸和异戊醇组成的多组分混合物开始,使用计算工具Aspen Plus®模拟器模拟了生物乙醇的纯化过程。通过比较分析,可以确定哪种溶剂具有最佳性能,其中分析了回流比、馏出率和溶剂流量等操作参数。确定了质量纯度为99.7%,无水生物乙醇的产量约为2764 kg/h,结果表明,考虑到上述操作参数,甘油是该工艺更具经济和环境可行性的溶剂。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Simulation of Production of Anhydrous Bioethanol using Glycerol and 1-Butyl-3-Methylimidazolyl-Tetrafluoroborate in the Aspen Plus Simulator
Corresponding Author: José Izaquiel Santos da Silva Institute of Science and Technology, Federal University of Jequitinhonha and Mucuri Valleys (ICT/UFVJM), Diamantina MG, Brazil Email: izaquiel@ict.ufvjm.edu.br Abstract: Biofuels are present in the global scenario as an energy source derived from organic biomass, representing an economic and environmental alternative. They are a renewable source of energy with low rates of pollutants emissions and, consequently, less carbon dioxide is released into the atmosphere. The obtaining of bioethanol is originated from a fermentation process, in which a multi-component mix is generated and the anhydrous bioethanol is separated. To obtain such compounds, some operations are required, such as extractive distillation, where solvents are added in order to “break” the ethanol-water azeotrope. In the present work two solvents were used: Glycerol and the ionic liquid [BMIM][BF4]. Starting from a multi-component mixture composed by ethanol, water, acetic acid and isoamyl alcohol, the bioethanol purification process was simulated using the computational tool Aspen Plus® simulator. Through a comparative analysis, it was possible to determine which solvent presented the best performance, where operational parameters such as the reflux ratio, distillate rate and the solvent flow were analyzed. The purity degree of 99.7% in mass and an approximate production of 2764 kg/h of anhydrous bioethanol were fixed and the results showed that glycerol was the solvent that presented greater economic and environmental viability for the process, considering the operational parameters mentioned above.
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